Lars Norlen is a Senior Lecturer affiliated with the Department of Medicine, Solna at Karolinska Institutet . His research focuses on the biophysical and structural analysis of the human skin barrier , utilizing advanced techniques such as cryo-electron microscopy (cryo-EM) and molecular dynamics (MD) simulations to investigate lipid organization, drug permeation mechanisms, and skin barrier formation. Key research areas include: Biophysics of lipid membranes Structural biology of epidermal components Computational modeling for skin permeability prediction Molecular organization of stratum corneum He has published extensively on skin barrier mechanisms, including landmark studies on ceramide-cholesterol interactions, cubic-to-lamellar phase transitions, and the role of keratin in barrier function. His work bridges dermatology , structural biology , and computational biophysics .
Leora Dresselhaus-Marais is an Assistant Professor at Stanford University with appointments in the Department of Materials Science & Engineering, Mechanical Engineering (by courtesy), and Photon Science at SLAC National Accelerator Lab. Her research focuses on modernizing 19th-century materials processing methods through multiscale characterization and modeling, targeting sustainability in steelmaking, metal 3D printing, and critical material extraction. PhD, Physical Chemistry, MIT (2017) BA & MSc, Chemistry, University of Pennsylvania Her work develops ultrafast X-ray microscopy tools (100 fs resolution) to study defect dynamics across length scales—from atomic bonds to blast furnaces. Key projects include sustainable hydrogen-based ironmaking, transonic dislocation propagation in diamond, and mesoscale characterization of additive manufacturing processes. Recent publications highlight operando imaging of laser powder bed fusion, dark-field X-ray microscopy innovations, and defect-driven material behavior under extreme conditions. She received the AFOSR YIP Award (2023) and Stanford fellowships including Gabilan, Terman, and Precourt Center appointments. Advisor to 11 doctoral students Principal Investigator at Stanford PULSE Institute Develops multimodal ultrafast microscopes
Thomas La Grange serves as a Research and Teaching Associate at École Polytechnique Fédérale de Lausanne (EPFL) across multiple units including the Laboratory for Ultrafast Microscopy and Electron Scattering (LUMES) within the Institute of Physics, the Doctoral Program in Physics (EDPY), and the Physics Section (SPH). He additionally holds a Scientific Staff Member position on the School Council of the School of Basic Sciences. His academic credentials include a Bachelor's and Master's in Materials Science from Michigan State University, culminating in a Ph.D. in Applied Physics from EPFL. La Grange's research pioneers ultrafast electron microscopy techniques to capture non-equilibrium material dynamics at nanosecond timescales. His work focuses on dislocation-mediated phase transitions, skyrmionics, and defect dynamics in rapidly deforming materials, with significant contributions to instrumentation like time-resolved q-EELS and cryo-LTEM. Current investigations explore uranium oxide reduction mechanisms, magnetic phase transitions in FeRh, and photonic modulation of electron beams. Recent publications reveal dominant themes in ultrafast imaging of magnetic materials and radiation-sensitive systems, with strong emphasis on electron spectroscopy applications for uranium oxides and magnetite. His group actively develops novel methodologies for momentum-resolved visualization of quantum phenomena in materials like graphite. His experimental innovations have earned significant recognition: Two R&D100 Awards for DTEM instrumentation Nano50 Award Microscopy Today Innovation Award La Grange supervises PhD candidates Andrieux Antoine Nicolas and Cattaneo Paolo while teaching core courses including "Physics of materials" and "Electron Matter Interactions in Transmission Electron Microscopy". His research is supported by institutional collaborations across EPFL's physics infrastructure. As a key member of Fabrizio Carbone's Laboratory for Ultrafast Microscopy and Electron Scattering (LUMES), he leads instrumentation development for capturing material dynamics at unprecedented temporal resolutions, with ongoing projects focused on PINEM techniques and skyrmion manipulation.
Janne-Mieke Meijer serves as Assistant Professor in the Department of Applied Physics and Science Education at Eindhoven University of Technology (TU/e), leading the Colloidal Soft Matter group within the Soft Matter and Biological Physics research unit while holding core membership at the Institute for Complex Molecular Systems (ICMS). Her work bridges fundamental soft matter physics with materials engineering through experimental investigations of colloidal self-assembly. Her academic credentials include: BSc in Chemistry (2006) from Utrecht University MSc in Nanomaterials (2009, cum laude) from Utrecht University PhD in Physical Chemistry (2015) from Utrecht University Meijer's research program centers on crystallization dynamics and defect engineering in complex colloidal systems, with particular emphasis on how building block properties and interactions govern superstructure formation. She employs quantitative real-space microscopy combined with light and X-ray scattering techniques to probe systems from single-particle to bulk material levels. Her group's work targets the development of novel functional materials—including structural color paints—through controlled spontaneous organization of colloids, addressing fundamental questions about order/disorder formation and phase transitions in soft matter. Analysis of her 2020-2024 publications reveals consistent methodological innovation in in situ characterization of colloidal crystallization, with recurring themes including thermoresponsive microgel behavior, point defect manipulation, and shape-dependent assembly of non-spherical particles. These studies frequently leverage temperature-tunable critical Casimir forces and advanced imaging to achieve single-particle resolution, demonstrating strong alignment between experimental design and fundamental theoretical questions in soft condensed matter physics. Her research funding includes: NWO Veni grant (016.Veni.192.119) supporting her Amsterdam research phase Alexander von Humboldt Foundation fellowship during her Konstanz postdoc Meijer actively contributes to academic training through courses in Biological Physics, Experimental Soft Matter, and Materials Characterization, while maintaining collaborative ties with TU/e's Self-Organizing Soft Matter and Physical Chemistry groups. Her laboratory produces visually striking colloidal structures that exemplify both scientific significance and aesthetic qualities of soft matter systems, reflecting her stated goal to 'create new materials from colloidal building blocks that spontaneously organize into functional structures.'
Peter Hasdell is Professor at the School of Design, The Hong Kong Polytechnic University , where he serves as Design Social Research Leader, Environment and Interior Year-4 and Capstone Coordinator, and previously held roles as Associate Dean (Academic Programmes) and Discipline Leader for Environment & Interior Design. An architect and urbanist with 30 years of professional practice and 17+ years of academic leadership, he has taught and practiced across Australia, Europe, North America, Japan and China. Education B.Sc (Hons) Architecture – University of Sydney AA Dipl (M.Arch equivalent) – Architectural Association, London Research Focus Professor Hasdell’s research interrogates metabolic systems , adaptive and responsive architectures , and city-as-life-form paradigms. Through the In-situ Project he leads place-based, participatory design initiatives that merge sustainable rural development with circular material economies. Key themes include social design, urban ecology, cross-border territories, and game-boarding methodologies for regional planning across the Greater Bay Area, rural China, and the Middle East. Awards & Recognition Grand Prize, 3rd Human City Design Award, Seoul / UNESCO (2023) UIA 2030 Award & UN-Habitat First Prize for SDG #11 (2022) Taipei International Design Award – Gold (2021) Design Educates Award – Architectural Design (2022 & 2023) Architecture MasterPrize (2021), Azure Award (2018), A+Awards 2023 finalist, Ammodo Architecture Award 2025, and more than 40 other distinctions Advising & Grants He supervises PhD candidates and MDES students in Environmental Design studios focused on the Greater Bay Area. His work has received grants from the European Union, Kadoorie Charitable Foundation, PCD, and other bodies supporting rural revitalisation and social design research. Labs & Initiatives He founded and directs the In-situ Project research-by-design platform, co-founded the Architecture & Urban Research Lab (A+URL) in Stockholm, and established the Pneuma Open Source Platform . He has also been a core member of Chora Institute (London) and C.A.S.T. (Manitoba) , collaborating internationally on experimental architecture and urbanism.
Oswin Krause is an Associate Professor at the Department of Computer Science , University of Copenhagen , specializing in Machine Learning . His research focuses on applying machine learning techniques to diverse domains including quantum computing, medical imaging, and astrophysics. Quantum dot array optimization and Coulomb diamond estimation Medical image analysis for clinical applications Evolutionary optimization algorithms and deep learning Neural networks for astronomical data interpretation Recent publications demonstrate a strong emphasis on quantum device calibration (2025), medical outcome prediction (2024), and algorithmic improvements in optimization (2022-2023). While no specific scientific awards are mentioned in the data, his work appears in journals like Physical Review Applied and Medical Image Analysis . Collaborations extend across physics, medicine, and computer science disciplines.
Shamail Ahmed serves as a Research Associate within the Functional Materials Group led by Prof. Dr. Kerstin Volz at Philipps University of Marburg. His research focuses on advanced battery materials, particularly solid-state battery systems and cathode engineering for next-generation energy storage solutions. His research interests center on understanding and improving cathode-electrolyte interfaces in solid-state batteries, with particular expertise in Ni-rich cathode materials. Using advanced characterization techniques including 4D STEM microscopy, his work addresses critical challenges in battery degradation mechanisms and interfacial stability. His publications reveal a strong focus on atomic-level analysis of phase transitions and structural evolution during electrochemical cycling. Analysis of his publication record (2020-2023) shows consistent contributions to high-impact battery research, with emphasis on interface engineering for sulfide-based solid electrolytes, thermal stability of nickel-rich cathodes, and visualization of structural transformations in cathode materials. His work bridges fundamental materials science with practical battery performance optimization. As a member of Prof. Volz's research group, Ahmed contributes to the university's materials characterization capabilities and collaborates with international research teams on advancing solid-state battery technology. His technical expertise in advanced microscopy and electrochemical analysis supports the development of more stable, higher-capacity battery systems.
Kai Zhang is an Assistant Professor of Chemistry at the University of Texas at Tyler. He specializes in computational chemistry, focusing on molecular simulation and machine learning applications in soft matter materials such as polymers, colloids, and glasses. His research explores nanoparticle self-assembly, gas transport through porous membranes, and data-driven materials discovery. Dr. Zhang holds a B.S. in Chemistry from Tsinghua University (2007) and a Ph.D. in Physical Chemistry from Duke University (2012). He joined UT Tyler in 2023 after postdoctoral or industry experience not explicitly detailed in the text. His research interests emphasize bridging computational methods with materials science. Key themes include understanding phase behavior in soft matter systems, optimizing gas separation membranes, and leveraging machine learning for material property prediction. Recent work highlights applications of generative models to thermodynamic systems and deep learning for nanoparticle assembly analysis. While no specific awards are listed, his publication record reflects sustained contributions to polymer physics, materials characterization, and computational methodologies. His work spans from fundamental theoretical studies (e.g., Ising model simulations) to applied problems like cell phone usage analysis via social media data. Laboratory and team affiliations are not explicitly mentioned, but his computational focus suggests involvement in interdisciplinary research groups at UT Tyler. No grants or advising details are provided in the source text.
Dr. Deltsidis Alexandros is a Researcher affiliated with IESL-FORTH (Foundation for Research and Technology Hellas) and the University of Crete's Department of Materials Science and Technology. His work focuses on low-dimensional intercalation compounds of metal-chalcogenides, particularly investigating electron correlations, structural rearrangements, and energy storage applications in superconductors. Education: B.Sc. (2017, Materials Science, UoC), M.Sc. (2019, Photonics, UoC), Ph.D. (2024, IESL-FORTH/UoC) Research interests include enhanced electron-electron interactions in quantum materials, emergent phenomena in superconductors, and energy transmission applications. His studies combine in-situ visualization techniques with advanced characterization to understand defect resilience and structural dynamics in high-temperature superconductors. Recent publications (2022) explore molecular intercalation effects in FeSe-based superconductors, focusing on local distortions and defect tolerance mechanisms. His work bridges materials synthesis, quantum phenomena, and practical energy systems. Involved in the Quantum Materials & Magnetism research group, contributing to interdisciplinary projects at the interface of condensed matter physics and materials engineering.
Prashant Jain is the G. L. Clark Professor of Physical Chemistry at the University of Illinois, affiliated with the School of Chemical Sciences and the Materials Research Lab. He also holds roles as Associate Head of Undergraduate Instruction and affiliate faculty at IQUIST. His research focuses on quantum light-matter interactions, plasmonics, and nanomaterials for energy conversion and catalysis. He earned a polymer engineering undergraduate degree and a PhD from Georgia Tech, followed by postdoctoral work at Harvard and UC Berkeley. Education: B.S. in Polymer Engineering, Ph.D. in Chemistry (Georgia Tech), Postdoctoral Research (Harvard, UC Berkeley). Research Interests: Plasmon-driven energy conversion, artificial photosynthesis, superionic conduction in nanomaterials, and catalytic mechanisms. His lab develops tools like nanoDDSCAT for nano-optics simulations and has pioneered studies on plasmonic chemistry and nanoscale phase transitions. Articles Trends: Recent work addresses plasmonic catalysis, superconductivity puzzles (LK-99), and biomedical applications of plasmonics. Over 120 peer-reviewed articles and 140 invited lectures highlight his impactful contributions. Awards: 2022 APS Fellow, 2022 Guggenheim Fellowship, NSF CAREER Award (2015), and multiple teaching awards. Advising/Grants: Leads a diverse research team and has secured NSF and other grants. Previously chaired the Chemical Physics PhD program and served on hiring/promotion committees. Labs/Teams: Directs the nanoscale light-matter interactions lab, collaborating globally to advance quantum materials and sustainable energy solutions.
Dr Deheng Wei is an academic researcher affiliated with the Department of Civil Engineering at The University of Sydney. His work focuses on granular mechanics, materials science, and computational modeling of complex systems. He investigates phenomena such as granular flow dynamics, particle behavior in fluids, and surface mechanics at microstructural scales. Research interests include fractal surface interactions, drag coefficient universality in granular materials, and energy pile thermal performance. His studies combine experimental methods like X-ray micro-CT with advanced computational techniques such as discrete element modeling (DEM) and computational fluid dynamics (CFD). Dr Wei's recent work explores topics such as droplet transport in deformable channels, flexoelectric effects in rough surfaces, and aggregate shape impacts on cement composites. His publications demonstrate multidisciplinary approaches addressing challenges in geotechnical engineering, fluid-particle systems, and material science. While no specific awards or grants are listed, his extensive publication record indicates active participation in international research collaborations. His work contributes to both theoretical understanding and practical applications in civil engineering and materials science domains.
Dr. Yecun Wu is a Postdoctoral Scholar in the Department of Physics at Stanford University , where he works under the supervision of Nobel laureate Prof. Steven Chu. He holds a Ph.D. in Electrical Engineering (2023), M.S. in Electrical Engineering (2020), and B.S. in Electronic Science and Technology (2016) from Stanford University and Beijing Institute of Technology, respectively. Research Interests: His work bridges quantum sensing , quantum materials , and energy storage , focusing on applying quantum technologies to visualize and enhance battery systems. He has pioneered methods for controlling 2D materials via guest species intercalation and developed atomic-scale quantum sensors for battery diagnostics. Selected Scientific Awards: Stanford Energy Postdoctoral Fellowship (2024-2027) Cardinal Ventures Deeptech Fellowship (2022) Leland F. and Margaret Perry Johnson Fellowship (2017) Cross-disciplinary Scholarship in Science and Technology (CSST) (2015) Xu Teli Scholarship (2015) National Scholarship (2014) Contributions: He organized the Stanford Physics, Identity, and Equity (PIE) program, mentored in the Stanford Engineering Research Introductions program, and served as guest lecturer in EE 310. His interdisciplinary expertise combines insights from electrical engineering, materials science, chemistry, and physics.
Michael Toney is a Professor at the University of Colorado Boulder in the Departments of Materials Science and Engineering and Chemical and Biological Engineering. He teaches MSEN 5270: Materials Characterization for Engineers and leads research focused on electrochemical energy storage , solar materials , and hydrogen storage . His group employs X-ray diffraction (XRD) , X-ray absorption (XAS) , and X-ray photoelectron spectroscopy (XPS) for materials characterization. B.S., California Institute of Technology (1979) Ph.D., University of Washington (1983) Toney's research explores advanced materials for energy storage systems, including: Lithium-ion batteries : degradation mechanisms, SEI formation, and fast charging Organic photovoltaics (OPVs) : morphology control via X-ray scattering techniques Perovskite materials : processing-structure-function relationships Membranes : ion interactions and chlorine degradation in desalination His group contributes to initiatives like the Joint Center for Energy Storage Research (JCESR) and XCEL (Extreme Fast Charge Cell Evaluation). Recent publications highlight interdisciplinary approaches to energy storage challenges. Honors and awards include: American Physical Society Fellow (2019) Farrell W Lytle Award (2009) Multiple IBM Technical Awards (1988–1997) NATO Postdoctoral Fellowship (1983) The group actively engages in outreach programs like the Elementary Arts Lab and DPS high school mentoring , emphasizing science education and work-life balance.
Associate Professor Merrick Mahoney is an Honorary Associate Professor in the School of Engineering at the University of Newcastle. He is affiliated with the Centre for Ironmaking Materials Research, part of the College of Engineering, Science and Environment. His research focuses on metallurgical coke properties, coal coking processes, and material behavior under high-temperature conditions. Key interests include coke abrasion resistance, mineral-matrix interactions, and the structural evolution of carbon during coking. Research highlights include advanced techniques such as CT scanning, X-ray imaging, and rheometry to analyze coke microstructure and reactivity. His work bridges fundamental material science with industrial applications, addressing challenges in coal blending, coking pressure management, and coke quality prediction. Publications from 2024 focus on gas-atmosphere effects on coke abrasion in blast furnaces, while 2023 studies employ xenon K-edge subtraction to map porosity. Earlier works (2020–2022) explore plastic layer chemistry, mineral dispersion (Ca/Fe interactions), and 3D microstructural analysis. His contributions emphasize linking microstructural features to macroscopic material properties and process optimization. No scientific awards are explicitly listed, though his extensive publication record reflects sustained research excellence. Advising and grants sections remain unspecified in the provided data. Mahoney is based at the Newcastle Institute for Energy and Resources (NIER), contributing to interdisciplinary energy and materials research.
Dr. Jörg Raabe is the Group Leader of the Microspectroscopy Group at the Paul Scherrer Institute (PSI), leading the Laboratory for Condensed Matter within the Photon Science Division since 2008. He earned his PhD from the University of Regensburg in 2003, focusing on low-dimensional electron systems and magnetic nanostructures. His research emphasizes x-ray microscopy of magnetic systems, particularly time-resolved studies of spin waves and skyrmions. Key institutional roles include managing the PolLux and In Situ Spectroscopy beamlines at the Swiss Light Source (SLS) and developing advanced x-ray microscopy instruments. His scientific contributions span innovations in soft X-ray laminography for 3D imaging of thin specimens and deterministic skyrmion nucleation in nanoengineered devices. Research interests integrate experimental and applied physics, with a focus on non-destructive 3D imaging techniques, magnetic nanostructures, and topological phenomena. Notable achievements include pioneering work on X-ray ptychography for integrated circuit analysis and high-resolution visualization of magnetic dynamics at GHz frequencies. Projects often bridge fundamental physics with technological applications in nanoelectronics and materials science.
